Abstract: A bi-directional valve system for an aquifer thermal energy storage system includes a hydraulic control valve fluidly connected to the aquifer pump and pipeline. A control pump is selectively actuated to hydraulically open and close fluid outlets of the hydraulic control valve. When the fluid outlets are closed, a full flow of water can be pumped from the aquifer, or pressure in the pipeline of the system maintained or increased. However, when the fluid pressure needs to be reduced or water reintroduced into the aquifer, the fluid outlets of the hydraulic control valve are selectively opened.

Abstract: Various embodiments described in the application relate to an apparatus, system, and method for generating, within a conduit, discrete volumes of one or more fluids that are immiscible with a second fluid. The discrete volumes can be used for biochemical or molecular biology procedures involving small volumes, for example, microliter-sized volumes, nanoliter-sized volumes, or smaller. The system can comprise an apparatus comprising at least one conduit operatively connected to one or more pumps for providing discrete volumes separated from one another by a fluid that is immiscible with the fluid(s) of the discrete volumes, for example, aqueous immiscible-fluid-discrete volumes separated by an oil.

Abstract: An apparatus (1) for determining crystallization solidification curves of a chocolate mass (6) includes a removal location (37), a measurement chamber (9) and a melting chamber (21). The removal location (37) serves to remove a liquid sample (38) of chocolate mass (6) from a flow of liquid chocolate mass (6). The measurement chamber (9) is connected to the removal location (37) such that the liquid sample (38) of chocolate mass (6) enters the measurement chamber (9). The measurement chamber (9) includes a temperature sensor (16) serving to sense the temperature of the sample (38) of chocolate mass (6) contained in the measurement chamber (9). The measurement chamber (9) includes a cooled wall serving for solidification of the liquid sample (38) of chocolate mass (6) contained in the measurement chamber (9). The measurement chamber (9) includes a movable piston (14; 41).

Abstract: A fluid recovery device includes a receiving vessel for receiving a recovered fluid, a pump, a fluid container, and a conduit communicating the receiving vessel, the pump, and the fluid container successively, and the pump is turned on or off at a predetermined time interval. A method for recovering fluid uses the fluid recovery device.

Abstract: A hydraulic system of a transmission comprises a main transmission pump that can be driven by torque transmitted via the transmission unit and with an auxiliary pump that can be driven by an electric machine, by which primary and secondary pressure circuits can be supplied with hydraulic fluid. Pressure sides of the main transmission pump and the auxiliary pump are connected to the primary pressure circuit upstream of a pressure relief valve provided for adjusting a main pressure in the primary pressure circuit. The pressure relief valve is arranged between the pressure sides of the main transmission pump and the auxiliary pump and the secondary pressure circuit. The pressure side of the auxiliary pump can be actively connected with the secondary pressure circuit, via a hydraulic line which can be blocked in the direction toward the primary and secondary pressure circuits, and which bypasses the pressure-relief valve.

Abstract: A diagnostic device is provided that includes a plurality of retainment regions interconnected through at least one fluid processing passageway or separated by at least one barrier. A fluid flow modulator can be provided in the fluid processing passageway if a fluid processing passageway is provided. The barrier and/or fluid flow modulator can comprise a polysaccharide, a derivative of a polysaccharide, or a combination thereof. For example, the barrier can comprise a chitosan material.

Abstract: An apparatus includes a hydrophilic surface configured to drive flow of a polar fluid responsive to an exclusion zone (EZ) effect, the EZ being formed near the hydrophilic surface. An energy source may provide energy to form or maintain the EZ.

Abstract: A dental waste containment and removal system and method for containing and removing dental waste produced at a dental services facility involves transferring dental waste containing a contaminant such as mercury from a patient's mouth into a dental waste container under a vacuum pressure such that the dental waste is temporarily retained within the dental waste container. The dental waste may then be removed from the dental waste container from a remote location, such as from the exterior of the dental facility, by pumping or suctioning the dental waste, and transported to a treatment facility.

Abstract: An apparatus for use in the application of liquid onto a body of matter to provide a watering effect and hence maintain the condition of the body of matter so as to encourage plant growth. The system includes a liquid reservoir, and a pump means and irrigation means so as to allow liquid to be moved from the reservoir and be dispensed onto the body of matter. The operation of the system to dispense liquid can be proportional to at least one environmental component such as the amount of sunlight such that when the body of matter is likely to be drier the system is operated to dispense more liquid.

Abstract: Water reservoir provided with a base and an upper surface disposed at a distance from the bottom section covered by a lid, wherein a substantially cylindrical pump cavity is formed in the bottom section, with a rotary displacement member arranged about a drive shaft disposed transversely upon the bottom section, wherein the pump cavity is closed off by a circular top plate supported by a support member in close proximity to an upper side of the pump cavity, wherein a motor support section extends from a top plate to the lid on which a motor is supported or at least partially supported, said motor being connected to the displacement member by a drive shaft, wherein the motor is positioned or at least partially mounted within the reservoir via a hole in the lid, and wherein the hole in the lid has a diameter larger than the circular top plate.

Abstract: A power assist system for a motor vehicle subsystem having a component support structure is described. The power assist system comprises a fluid reservoir, a pump having an inlet for receiving a fluid from the reservoir and a pump securing structure including at least one aperture. The system additionally includes at least one fastener. The reservoir fluid outlet is directly coupled to the pump inlet and the at least one fastener secures the reservoir mounting structure by passing directly through the pump mounting structure and attaching to the motor vehicle component support structure.

Abstract: A preheating backwater device comprises a tank body fabricated with a pump, a control module, a Y-pipe and a plurality of pipes inside. The device is assembled with a general hot-water heater and existing hot water and water supply pipes in a building. Users can activate the device either by pressing wire-linked buttons or using a wireless remote control. Lower temperature water in the hot water pipes can be pumped out and recirculated to the hot-water heater of the backwater device for a preset amount of time. If the automatic control module fails and preheating is not stopped automatically, an overheat protection device activates to guide the hot water to a cold water pipe via a backwater gate. A pressure control device installed in one end of a three-port connector of the overheat protection device stabilizes the pressure in the pipes. The design can prevent dangerous overheating situations.

Abstract: A system wherein cold water from near the sea floor is pumped through a primarily vertical pipe (12) to a body (14) floating at the sea surface so energy can be obtained from water temperature differences. A pump (50) located at the bottom of the pipe, is part of a pump module (46) that can be inserted and removed horizontally through a slot (44) in a bottom structure (22) lying at the bottom of the pipe. The top of the pipe is sealed to a movable pipe connector, by a U-shaped elastomeric seal (110). The pipe can include a short top pipe section (126) and a long bottom pipe section (127) of smaller diameter (D), whose upper portion can be pulled up through the top pipe section when the top pipe section is damaged.

Abstract: Waste shower water recycle apparatus is provided for receiving waste shower water from a shower drain outlet. The apparatus comprises a waste shower water inlet for receiving draining waste shower water, a potable water inlet, a drain outlet for liquid communication with a drain, a cistern supply outlet for supplying a toilet cistern, flow control means for controlling the flow of waste shower water from the waste shower water inlet to the drain outlet and to the cistern supply outlet, and for controlling the flow of potable water from the potable water inlet to the cistern supply outlet, and a pump device for moving waste shower water from a drain outlet of a shower to the said waste shower water inlet. Preferably, a cleansing element is provided for cleaning and disinfecting the waste shower water prior to being supplied to the cistern supply outlet.

Abstract: An oil supply device for a vehicle includes an oil pump having a supply condition varying mechanism varying a supply condition of oil, a hydraulic actuator to which the oil is supplied from the oil pump, a lubricating system to which the oil is supplied from the oil pump, and an oil supply adjusting mechanism adjusting the supply condition of the oil from the oil pump to the hydraulic actuator and the lubricating system, wherein the supply condition of the oil to the supply condition varying mechanism and the oil supply adjusting mechanism is controlled by a single control valve.

Abstract: A low waste pump follower includes a platen and a perforated member. The platen has a bottom side defining a cavity and the perforated member covers the cavity. The pump follower is driven into a container of viscous material. Material is forced through the perforated member, into the cavity, and pumped to a dispenser. When the pump follower reaches the bottom of the container, it is retracted, and the residual material present in the cavity is retained by the perforated member.

Abstract: A flow-conditioning system includes a pump, process tubing coupling the pump to a source of multiple component process fluid, and an in-line flow-mixing device positioned in the process tubing upstream of the pump. A system includes a well disposed below a body of water and providing a source of multiple component fluid, a pump disposed in and exposed to the water, process tubing coupling the pump to the well, and an in-line flow-mixing device positioned in the process tubing upstream of the pump.

Abstract: A method of saturating porous aggregate material includes: (a) filling an interior of a vacuum vessel with porous aggregate material; (b) applying a vacuum to the vessel interior until a desired vacuum level is reached; (c) drawing water into the vessel under vacuum until substantially all of said aggregate material is covered; and (d) pumping unabsorbed water from the vacuum vessel. A system for saturating porous aggregate materials includes: (a) a vacuum vessel; (b) a vacuum line fluidly connected to a top portion of the vessel, whereby opening the vacuum line using a valve imparts negative pressure to the vacuum vessel; (c) a water delivery conduit fluidly connected at one end to a water source and at its other end to the vessel interior; and (d) a water removal conduit fluidly connected at one end to the vessel interior and at its other end to a pump.

Abstract: Plastic microfluidic structures having a substantially rigid diaphragm that actuates between a relaxed state wherein the diaphragm sits against the surface of a substrate and an actuated state wherein the diaphragm is moved away from the substrate. As will be seen from the following description, the microfluidic structures formed with this diaphragm provide easy to manufacture and robust systems, as well readily made components such as valves and pumps.

Abstract: A pressure-controlled liquid supply system uses a pump control device to switch a pump on and off in response to a pressure level in the pumped liquid. The pump control device minimizes short cycling of the pump by preventing shut off of the pump while a flow is present through the pump control device and by delaying the shut off of the pump. The pump control device also avoids a significant drop in the output pressure by creating a reduced pressure zone, which provides the switch pressure used to switch the pump off.

Abstract: An apparatus (5) for controlling a water-pressurization system can be installed in a hydraulic circuit (1). The system includes an electric pump (2) connected to the hydraulic circuit (1) for pumping water therein, and an expansion vessel (3), provided with a valve (4) for controlling the pressure of the chamber containing air inside it, connected to the hydraulic circuit (1), designed to compensate for the variations of pressure to which the hydraulic circuit (1) is subjected in the steps of delivery of water.

Abstract: A sample preparation dosing unit for liquid dosing is provided comprising an inlet port and an outlet port fluidically coupling the sample preparation dosing unit to a supply and target, respectively; a pump, fluidically arranged between the inlet port and the outlet port; an outlet flow restrictor with an outlet flow resistance, fluidically arranged between a pump outlet and outlet port; and a control arrangement with a branch, a control valve, and a control flow restrictor with a control flow resistance. The branch divides the flow at the pump outlet into an outlet flow through the outlet flow restrictor and into a control flow through the control flow restrictor. The control flow downstream of the control flow restrictor is fed, depending on the state of the control valve, either into the outlet port thereby merging with the outlet flow downstream of the outlet flow restrictor, or into a bypass conduit.

Abstract: A fluid transfer system includes a fluid supply source. The fluid supply source includes at least one wall extending from a floor. The fluid transfer system also includes at least one fluid transfer apparatus positioned within the fluid supply source. The fluid transfer system further includes a fluid control system. The fluid control system includes a plate coupled within the fluid supply source at least partially between the wall and the at least one fluid transfer apparatus. The fluid control system also includes at least one partition extending from the plate between the wall and the at least one fluid transfer apparatus. The at least one partition cooperates with the plate to at least partially direct fluid flow into the at least one fluid transfer apparatus.

Abstract: A method includes performing a chemical process to create a chemical product and an amount of heat, and transferring the heat to a first fluid. The method further includes hydrating a polymer in the first fluid, and adding the chemical product from the chemical process to the first fluid to create a treatment fluid. The method further includes diluting the treatment fluid with respect to at least one constituent of the treatment fluid. The method includes treating a formation of interest in a wellbore with the treatment fluid. The method includes changing a formulation of the treatment fluid during the treating. The method also includes extending the treating beyond a design amount, or ending the treatment before the design amount and preserving some reagents of the chemical process.

Abstract: A fluid supply apparatus includes a piston, a piston support portion to support the piston, a container support portion capable of supporting a container in which a fluid is contained, and a drive mechanism. The drive mechanism drives at least one of the container support portion and the piston support portion in a direction in which the piston is inserted into the container at a time when supply of the fluid is performed and drives at least one of the container support portion and the piston support portion in a direction in which the piston is relatively removed from the container at a time when the supply of the fluid is stopped.

Abstract: A pressure washer system includes a combustion engine having a power takeoff. The center of the power takeoff defines an axis of rotation. The pressure washer system further includes a centrifugal clutch coupled to the power takeoff. The clutch comprises a flywheel having a center of mass positioned along the axis of rotation. The pressure washer system also includes a water pump coupled to the clutch output shaft.

Abstract: A caisson for submersible pumps and method of operating a pump that is fluidly cooperative with the caisson. The pump discharge and the caisson are fluidly coupled to one another such that upon discharge of a fluid being pumped, the caisson acts as the fluid conduit, thereby removing the need for redundant riser pipes. In one form, the pump is a seawater lift pump for use with floating production storage and offloading (FPSO), offshore platforms or related structures.

Abstract: A hydraulic circuit (50) is provided with an oil cooler (180), a lubricating unit (200), a relief valve (210) and an oil pan (100). The lubricating unit (200) receives hydraulic oil cooled by the cooler (180) as lubricating oil and discharges the same to the oil pan (100). The relief valve (210) regulates oil pressure within an oil path (190) by discharging a portion of the hydraulic oil from the oil path (190). The oil cooler (180) is arranged upstream of the lubricating unit (200) and the relief valve (210), and cools the hydraulic oil flowing to the lubricating unit (200) and the relief valve (210).

Abstract: A device includes a number of N?2 pump chambers having N separate chamber volumes, each of which may be altered independently of the other(s). The volume changes of the pump chambers occur periodically with substantially the same frequency (f). The device further includes N actuators for changing the respective chamber volumes and valves for establishing the pumping direction, and finally a common inlet and outlet. The pump chambers of the device are disposed in series one behind the other, and the forms of the periods of volume changes of all pump chambers are substantially identical. Moreover, an ideal phase offset PHI of approximately 180° exists between the volume change of the chamber volumes of two sequential pump chambers.

Abstract: A raw material supply device (105) includes an introduction pipe (152a) which introduces a carrier gas into a raw material vessel (151), a transport pipe (152b) which transports a source gas fed out from the raw material vessel, a supply pipe (155a) which is branched from the transport pipe and supplies the source gas to a film forming chamber (101), a circulation pipe (155b) which is branched from the transport pipe (152b) and returns the source gas to the introduction pipe (152a), an introduction valve (156a) which is attached to the introduction pipe, a supply valve (156b) which is attached to the supply pipe, a circulation valve (156c) which is attached to the circulation pipe, and a controller (157) which controls opening/closing of the valves. The controller controls the supply valve and the circulation valve to be in opposite open/closed states. The source gas can be supplied more stably while suppressing the waste of the raw material.

Abstract: A composite appliance base used for manufacture and assembly of various appliances such as a clothes washing machine, clothes dryer, or the like. The composite appliance base includes a heater box, an electric motor mount, a fan shroud, and at least one duct. There are also various inlets which are used for water hoses (in the case where the composite appliance base is used for a washing machine or the like) as well as exhaust ducts and integrated cable clips. In one embodiment, the composite appliance base includes a base portion and a fan shroud, as well as a first duct in fluid communication with the fan shroud. The composite appliance base also includes a second duct which functions as the heater box; the heater box is operable with a heater device to heat air flowing through the heater box, the duct, and the fan shroud.

Abstract: A system for delivering a cooking medium of a cooking apparatus includes a cooking medium tank for storing the cooking medium and a rotary valve including a rotary inlet configured to be in fluid communication with the cooking medium tank. The rotary outlet further includes a plurality of rotary outlets including a first rotary outlet in fluid communication with a first cooking vessel and a second rotary outlet in fluid communication with a second cooking vessel. Moreover, the rotary valve is configured to selectively place the rotary inlet in fluid communication with one of the plurality of rotary outlets. In other embodiments, the system further includes a motor operatively connected to the rotary valve and configured to operate the rotary valve to select one of the plurality of rotary outlets.

Abstract: A waste pumping system is provided that includes a tank having a floor, a body, and a tank inlet. Embodiments include those wherein the system includes a first designated area formed by a first baffle portion and the body, a second designated area formed by a second baffle portion and the body, and a third baffle portion for directing material toward the first designated area. In some embodiments, the system includes a pump substantially disposed within the first designated area and a sensing system substantially disposed within the second designated area for activating the pump when material within the tank reaches a predetermined level.

Abstract: A fluid is processed between processing surfaces capable of approaching to and separating from each other, at least one of which rotates relative to the other. A first fluid containing a material to be processed is introduced between processing surfaces 1 and 2, by using a micropump effect acting with a depression 13 arranged on the processing surfaces from the center of the rotating processing surfaces. A second fluid containing a material to be processed, independent of this introduced fluid, is introduced from another fluid path d2 that is provided with an opening d20 leading to the processing surfaces, whereby the processing is done by mixing and stirring between the processing members 1 and 2. In a plane along the processing surfaces, directionality accompanies the introducing direction from the opening of the second fluid into the processing surfaces.

Abstract: A fluid transporting system including a microfluidic pump, a fluid guiding unit, and a first pipe connected between the microfluidic pump and the fluid guiding unit is provided. The microfluidic pump includes a body, a first unidirectional membrane valve, and a second unidirectional membrane valve. The body has a cavity, an inlet connected to the first unidirectional membrane valve, and an outlet connected to the second unidirectional membrane valve. When the cavity is compressed, the first unidirectional membrane valve is closed, and the second one is opened. When the cavity is dilated, the first unidirectional membrane valve is opened, and the second one is closed. The fluid guiding unit includes a tank provided with a first channel, and a second channel. A height of the first channel relative to the bottom of the tank is higher than that of the second channel relative to the bottom of the tank.

Abstract: Ends (134a-1) of projections (134a) do not contact a first substrate (11), forming a gap between the ends (134a-1) and the first substrate (11). The internal capacity of a suction pump (17) can be increased by an amount by which the projections (134a) are shortened, compared to a conventional structure in which pillars are formed to connect the ceiling and bottom of the cavity of a capillary pump. The capacity of the suction pump (17) can be increased without enlarging the planar shape. Further, the ends (134a-1) of the projections (134a) do not contact the first substrate (11), forming a gap between them. An impurity can pass through the gap, and clogging of the inside of the suction pump (17) with the impurity can be prevented, realizing a stable operation.

Abstract: The present invention provides a rainwater catchment apparatus that is easily installed without renovating a building. The rainwater catchment apparatus comprises a rainwater inlet for introducing rainwater, a flange portion engaged with a peripheral portion of a rainwater outlet serving as a leading end of a drainage canal formed in a building framework for introducing rainwater in the rainwater inlet, a drain portion for discharging excessive water exceeding a predetermined level to the drainage canal, a reservoir freely fitted into the drainage canal through the rainwater outlet, and a pumping mechanism for pumping water stored in the reservoir to the outside.

Abstract: Provided is a sequenced fluid control device that includes a pneumatic driver module, a fluid cartridge having at least one fluid chamber and at least one waste chamber, and at least one sample delivery element disposed to sealably contact the fluid cartridge forming a main chamber containing a sample, where the fluid cartridge is also disposed to sealably contact the pneumatic driver module. The pneumatic driver module injects gas into or withdraws gas from the fluid cartridge, where the gas directly contacts at least one fluid causing at least one fluid to flow through channels disposed to connect at least one fluid chamber to the sample delivery element and disposed to connect the sample delivery element to the at least one waste chamber or waste channel, where a sample on the sample delivery element is exposed to the at least one fluid.

Abstract: Nanomechanical, nanoelectromechanical, and other molecular-scale pump assembly are described. In certain embodiments, the pump assembly includes a cavity. The cavity includes a plurality of nanofilaments, a surface proximate at least one of the nanofilaments, a fluid flow path, and an opening. Molecules of a fluid that flows from the opening through the cavity along the fluid flow path collide with the surface or one or more of the nanofilaments such that the molecules are accelerated along the fluid flow path. A molecular-scale pump assembly includes a plate defining a plurality of openings, and a plurality of cantilevered molecular-scale beams positioned over each opening. In certain embodiment, molecules of a fluid are accelerated through the opening by asymmetric oscillation.

Abstract: The invention relates to a piece of equipment for producing semiconductors, comprising a process chamber (2), a substrate holder (5) for holding a substrate (6) for processing within said chamber (2) and a pumping device (4), comprising a vacuum pump (7) in which a flow of gas for pumping may flow between a gas inlet (9) and a gas outlet (10) of which said inlet (9) is connected to the process chamber (2), the substrate holder (5) and the vacuum pump (7) being in the same axis (12), the substrate holder (5) being arranged upstream of said inlet (9) of said vacuum pump (7) in the flow of gas for pumping, characterised in that the pumping device (4) comprises a gas pressure regulation means (8) at the outlet (10) of the vacuum pump (7), for controlling the pressure of the gas at the inlet (9) of the vacuum pump (7) and that the substrate holder (5) comprises at least three support branches (21) connected to a support (20) on the substrate holder (5) in order to fix the support (20) to the process chamber (2) an

Abstract: An adaptable hydraulic control system configured to be used with either open-center or closed-center hydraulic power systems which may include one or more switches, one or more hydraulic circuits to operate a sequence of motions and may include a shunt relief valve to permit operation with an open-center hydraulic innervator control valve(s) powered by wither an open-center system or a closed-center system. Series switches may control a sequence of operation by transitioning between different normal, or default states to act upon and control repositioning of a hydraulic innervator control valve(s) that may itself have normal or default states perhaps such as for forward operational flow, backward operational flow, or neutral pass through flow.

Abstract: A supply line system for conveying a fluid is provided. First and a second conduit segment have at least one inner conduit surface and an outer conduit surface. At least one fluid chamber is within the conduit segments and is formed by the at least one inner conduit surface. At least one electric wire is located between the at least one inner conduit surface and the outer conduit surface. A conduit connection element is connecting the first and second conduit segments, thereby mating the fluid chamber and the electric wire of the first conduit segment with the fluid chamber and the electric wire of the second conduit segment. At least a portion of the quantity of fluid and the electric signals is passed from the first to the second conduit segment. A control system is connected to the electric wire and in communication with at least one device.

Abstract: At least two fluids separated from one another are mixed by means of pump force via respective suction lines and conveyed into a conveying line by a pump delivery stroke. The fluids are mixed in the pump head of a single oscillating positive displacement pump, the drive of which is controlled in accordance with a proportion of the fluids to be mixed, the suction stroke of the drive is divided over its rotary angle into individual sections during which the fluids are sucked into the pump head one after another, whereupon the fluids which have already been mixed in the pump head are ejected into the conveying line during the subsequent pump delivery stroke. The suction lines of at least two fluids to be mixed are provided with valves and connected to the pump head, the drive controller of which is configured for switching over the valves.

Abstract: A fluid transport apparatus maintains temperature of a fluid transported through a conduit. The fluid transport apparatus includes a fluid transport conduit that is selectively deformed by a pressure within a compressor conduit and allowed to return to its original shape by venting the pressure through a venting valve. The alternating pressurization and release of pressure from the compressor conduit moves fluid through the fluid transport conduit. A thermal conductor is associated with the fluid transport conduit to maintain the temperature of the fluid in the fluid transport conduit within a predetermined range.

Abstract: A submarine cold water pipe water intake system of an ocean thermal energy conversion power plant is installed at a cold water inlet of a power boat, and the cold water pipe includes: a water intake head; a water intake pipe formed by connecting composite pipes in a series, and each composite pipe is formed by arranging a plurality of wavy inner pipes sequentially into a tubular shape; a connecting pipe formed by engaging an outer pipe and an inner pipe, and an inner pipe of the connecting pipe being connected to the cold water inlet of the power boat, and an end of the outer pipe of the connecting pipe is connected to a connecting portion of the water intake pipe.

Abstract: A microfluidic device (100) for controllably moving a material of interest (102) includes a holding cavity (108) configured to hold the material of interest (102) and at least one actuator (120) configured to induce an activation material (116) to expand or contract. Expansion of the activation material (116) decreases the size of the holding cavity (108) to cause the material of interest (102) to be released from the holding cavity (108) and contraction of the activation material (116) increases the size of the holding cavity (108) to cause the material of interest (102) to be received into the holding cavity (108). The at least one actuator (120) is operable at multiple levels between a zero induction level to a maximum induction level on the activation material (116) to thereby controllably expand or contract the holding cavity (108) to release or receive a specified volume of the material of interest (102).

Abstract: A system and apparatus (10) is provided for processing fluid reagents (12, 14, 16, 18) comprising disposable fluid conduits and a reusable conduit support system (20). The fluid conduits are connected to at least one source of fluid and to at least one unit operation (22) such as filtration.

Abstract: The invention relates to a system and to a method for regulating a flow of liquid in a line, with a pump delivering the liquid to the consumer, tank or process. In particular, the invention relates to a sewage disposal system for public disposal of sewage, with a sewage pipe network comprising a plurality of sewage lines, and with at least one motor-driven pump delivering sewage through the sewage lines to a settling tank, to a service water support system for public supply of water, with a water supply pipe network comprising a plurality of water supply lines and with at least one motor-driven pump delivering service water through the water supply lines to a consumer, and to a liquid delivery system for providing a chemical liquid in a process, with a liquid pipe network comprising a plurality of pipelines and with at least one motor-driven pump delivering the chemical liquid into the process.

Abstract: The present invention is directed to providing a transfer tube assembly mounted on a saddle type fuel tank. The assembly of the present invention includes: a main fuel pump allowing a fuel pump system to deliver fuel to the engine; a sender delivering residual fuel to the main fuel pump; a wire harness connecting the main module and the sender and configured to inform of a fuel amount in the sender; and a transfer tube for transferring the residual fuel in the sender to the main fuel pump. The wire harness and the transfer tube are integrally coupled and configured so that a function of the wire harness can be performed simultaneously with a function of the transfer tube.

Abstract: The invention relates in one embodiment to an extension for a sump assembly covering a main drain of a swimming pool or spa that prevents suction entrapment. More specifically, the invention relates to a sump extension having a frame, a plate defining a plurality of openings and positioned on the frame, a removable cross channel extending across the upper end of the frame, and a cover plate positioned on the frame substantially adjacent to the plate. In another embodiment the invention relates to a sump assembly for a main drain of a swimming pool or spa, and more specifically, to a sump assembly having a sump, a conduit passing through the sump, a frame, a plate defining openings and positioned on the frame, a removable cross channel extending across the upper end of the frame, and a cover plate positioned on the frame substantially adjacent to the plate.